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Energizing our future : rational choices for the 21st century / John R. Wilson, Griffin Burgh.
Table of contents only Available online
View onlineLIBRA TJ163.2 .W55 2008
Available from offsite location
- Format:
- Book
- Author/Creator:
- Wilson, John R.
- Language:
- English
- Subjects (All):
- Power resources.
- Physical Description:
- xxvi, 390 pages : illustrations ; 25 cm
- Place of Publication:
- Hoboken, N.J. : Wiley-Interscience, [2008]
- Summary:
- Developing an environmentally benign and strategically sound energy economy for the twenty-first century is one of the biggest and most complex challenges of our time. Energizing Our Future surveys and analyzes in considerable depth the present and future economic and technical viability of all known potential energy sources in the context of real-world production, distribution, and environmental constraints. It addresses three critical energy-related topics that are causing great confusion in public debate-global warming, the hydrogen economy, and nuclear power-and gives readers an opportunity to form a grounded, factually correct foundation for understanding the energy challenge and develop their own informed and actionable opinion. Coverage includes: Global warming, The hydrogen economy, Nuclear energy and the plutonium economy, Conventional oil and oil reserves, Coal and bituminous reserves, Biomass and ethanol, Methanol, Diesel and biodiesel, Solar energy and photovoltaics, Fuel cells for stationary and mobile use.
- This insightful and much-needed perspective represents the first comprehensive review of the rational alternative energy choices for the twenty-first century. The subject matter is engaging and factual, enabling readers to grasp the gravity and urgency of impending choices, some of which will have to be made individually in practice. It is a must-read for political and industrial leaders, business and technology consultants, well-informed general readers, and students and teachers in chemistry, physics, engineering, energy technologies, politics, and the environmental sciences.
- Contents:
- Introduction: Rising Energy Costs xix
- Part I A Trilogy of Popular Misconceptions 1
- 1 Global Warming 3
- Conventional Wisdom 4
- CO[subscript 2] and the Carbon Cycle 7
- The Greenhouse Effect 10
- Recent Climate Changes 11
- Carbon Dioxide 13
- Other Global Warming "Forcing Agents" 15
- Water Vapor 15
- Methane 20
- Nitrous Oxide 21
- Ozone 22
- Sulfur 24
- Other Pollutants 24
- Carbon-Based and Other Particulates 26
- Solar Influences-Insolation and Irradiance 26
- Global Net Primary Productivity (NPP) 30
- Intergovernmental Panel on Climate Change 32
- IPCC Report Conclusions 34
- Footnote on the IPCC 35
- Dealing with Global Warming 36
- Can Anything Be Done? 37
- The Kyoto Protocol 38
- 2 The Hydrogen Economy (Aka, the Impossible Dream) 41
- The Promise of Hydrogen 42
- The Scale of the Task-Why Replace Gasoline? 42
- Replacing Fuels Other than Gasoline 43
- Hydrogen as an Alternative Fuel 44
- Hydrogen Production Methods 44
- Water-Splitting Processes-Overview 47
- Hydrogen from Electrolysis 48
- Electrolytic Hydrogen Production 49
- Oxygen By-products 49
- Energy Consumption and Electrolyzer Efficiency 50
- Electrolysis: Emissions 53
- Electrolysis: Economics 53
- Hydrogen from Hydrocarbons 54
- Thermal and Catalytic Reforming from Natural Gas 54
- Catalytic Thermochemical Reforming 55
- Scaling Issues-Up and Down 56
- Combustion CO[subscript 2] from Reforming 57
- Hydrogen Production Costs 59
- Natural Gas Reserves and Hydrogen 61
- Natural Gas and Hydrogen Manufacture 62
- Other Hydrogen Production Methods 62
- Photoelectrolysis 63
- Biomass Conversion to Hydrogen 64
- Hydrogen Production-Summary 65
- Safety Considerations 66
- Transporting and Distributing Hydrogen 67
- Compressing Hydrogen 68
- Liquid Hydrogen 69
- Pipelining Hydrogen 70
- Pipeline Leakage Losses 73
- Road Tanker Transportation of Hydrogen 73
- Hydrogen Leakage Losses 74
- Transportation and Distribution Alternatives 75
- Distributed Manufacturing of Hydrogen 75
- By Electrolysis 75
- By Reforming 76
- Hydrogen Reformer Reliability 76
- Hydrogen Reformer Safety 76
- Onboard Manufacture of Hydrogen 77
- Hydrogen Storage 77
- Hydrogen Storage Approaches 78
- Compressed Hydrogen Gas: Containment Technologies for 5000-10,000 psig 78
- Liquid Hydrogen: Cryogenic Containment 80
- Storage in Metals and Metal Hydrides 84
- Background on Metal Hydrides 86
- Complex Hydrides 89
- Catalyzed Hydrogen Adsorption and/or Desorption 91
- Feasibility of Metal Hydrides as Storage Media 92
- Hydrogen Adsorption/Desorption: "Chemical Hydrides" 92
- Hydride Slurries for Hydrogen Storage and Transportation 93
- Possible Nonmetal Hydrides/Hydrogen Carriers 95
- Hydrocarbons via Partial Dehydrogenation 96
- Carbon-Based Adsorption Systems 97
- Graphite 97
- Graphitic Nanotubes 98
- Zeolites 99
- Novel Hydrogen Storage Methods 99
- Hydrogen Carriers 101
- Ammonia 101
- Methanol 103
- Hydrogen Storage and DOE Criteria 103
- Storage Implications for Light-Duty Vehicles 104
- Hydrogen Storage with No Gravimetric or Volumetric Capacity Constraints 112
- Hydrogen Storage Assessment 112
- Hydrogen Safety 114
- Some Additional Safety Issues 115
- Summary of Hydrogen Issues 116
- 3 Nuclear Energy and the Plutonium Economy 117
- The Influence of Nuclear Energy 117
- Evolution of Reactor Designs 122
- Generation IV Reactors 123
- Fuel Recycling and Mixed Oxide Fuel 125
- Mixed Oxide Fuel (MOX) Use in Light-Water Reactors 125
- Mixed Oxide Fuel (MOX) Production and Processing 126
- Fast-Breeder Reactors 127
- Gas-Cooled Fast Reactor (GFR) 128
- Lead-Cooled Fast Reactor (LFR) 128
- Sodium-Cooled Fast Reactor (SFR) 129
- Supercritical-Water-Cooled Reactor (SCWR) 131
- Very High-Temperature Reactor (VHTR) 133
- Radioactive Waste Disposal 134
- Nuclear Facility Decommissioning 137
- Decommissioning Examples 139
- Transmutation of Nuclear Wastes 140
- Uranium Supply Concerns 142
- Supply Projections 146
- Uranium from Seawater 150
- Uncertainty about Safe and Sustainable Reactor Technology 151
- The Problem in Ontario, Canada 152
- Fusion Power 153
- The Future is Dimming on Nuclear Power 153
- Part II Energy Options for the Future 155
- 4 Conventional Oil and Oil Reserves 157
- Oil Reserves 158
- Conventional Natural Gas 164
- "Unconventional" Oil 167
- "Unconventional" Gas 168
- Coal-Bed Methane (CBM) 169
- "Tight" Gas 170
- Stranded or Orphaned Gas 170
- A Short (Age) Summary 171
- Who Really Sets Oil Prices? 171
- Future Supply, Demand, and Pricing 172
- Oil 172
- Natural Gas and Synthetics 175
- 5 Coal and Bituminous Reserves 178
- Coal 179
- The Lurgi Process (Coal to Syngas or High BTU Fuel Gas) 182
- The Hygas Process (Coal to SNG) 183
- The Bi-Gas Process (Coal to SNG) 183
- The CO[subscript 2] Acceptor Process 183
- Other Coal Processes 186
- Underground Processing of Coal 186
- Other Important Alternative Energy Sources 187
- Municipal Waste 188
- 6 Biomass and Ethanol 189
- Current Availability 189
- Biomass Conversion Technologies 191
- Prepreparation 191
- Conversion 191
- Enzymatic Saccharification of Cellulose 192
- Steam Explosion 192
- Saccharification and Fermentation 192
- Conversion Products and By-Products 193
- Sugars 193
- Value-Added Products (e.g., Ethanol, Polymers) 193
- By-Products 193
- Animal Feed 193
- Lignin and Lignin Derivatives 194
- Cellulose Derivatives 194
- Other Raw Materials for Biomass 194
- Large-Scale, High-Value End Products from Non-Corn Biomass Conversion 195
- Chemicals from Corn 195
- Available Technologies for Chemicals Production from Biomass 196
- Acid Hydrolysis of Biomass Cellulose 196
- Countercurrent Hydrolysis 197
- Enzymatic Hydrolysis 197
- Commercialization 198
- Cost Implications of Biomass Use 198
- Net Energy Balances 199
- Manufacturing Efficiency 200
- The Thermodynamics of Growing Corn 201
- The Thermodynamics of Processing Corn into Ethanol 202
- Ethanol Production Efficiencies 206
- Corn Production in the United States 207
- Federal Subsidies for Ethanol 208
- Longer Term Ethanol Prospects 208
- Final Ethanol Observations 209
- 7 Methanol 211
- Possible Fossil Sources of Syngas 214
- Methanol as an Energy Carrier 215
- Methanol Manufacturing and Applications 216
- 8 Diesel and Biodiesel 219
- "Clean Diesel" Fuel and Diesel Fuel Substitutes 219
- The Diesel Market: The Future of Diesel Engines and Diesel Fuels 219
- Diesel Engine Emissions 222
- Biodiesel 223
- What is Biodiesel? 224
- Advantages of Biodiesel 227
- Disadvantages of Biodiesel 233
- Oxidative and Hydrolytic Stability 234
- Use in Diesel Hybrids 236
- Alternatives to Vegetable Oil-Based Biodiesel for Diesel Substitution 236
- Other Alcohols in Petroleum Diesel 236
- Other Oxygenated Additives in Petroleum Diesel 237
- Gas-to-Liquid (GTL) or Biomass-to-Liquid (BTL) Products as Diesel Substitutes 238
- Diesel Fuels and Fuel Substitutes-Summary and Discussion 241
- Diesel Fuel Conclusions 243
- 9 Solar Energy and Photovoltaics 245
- Solar Radiation 245
- Scattered, Beam, and Albedo Radiation 246
- Solar Insolation 247
- Direct Solar Energy 248
- Passive and Active Solar Heating 248
- Solar Photovoltaic Systems 250
- General Operation of PV Cells 251
- PV Types 253
- Amorphous Silicon 253
- Single-Crystalline Silicon 254
- Polycrystalline Silicon 255
- Polycrystalline Thin Films 255
- Polycrystalline Thin-Film Materials 255
- Multijunction PV Cells 257
- Dye-Sensitized Solar Cells 257
- Organic Solar Cells (OSC) 258
- Grid-Connected Solar Energy 259
- PV Solar Energy Prices 259
- PV Manufacturing Giants 260
- Future Outlook 261
- 10 Fuel Cells for Stationary and Mobile Use 263
- Fuel Cell Principles 264
- Types of Fuel Cell 264
- The Importance of FC Operating Temperatures 265
- Polymer Electrolyte Membrane/Proton Exchange Membrane Fuel Cell (PEMFC) 266
- Regenerative PEM Cells 269
- The Direct Methanol
- Fuel Cell 269
- Solid Oxide Fuel Cells (SOFCs) 271
- Hybrid Power Systems Incorporating SOFCs 272
- Other Important Fuel Cells 273
- The Alkaline Fuel Cell (AFC) 273
- The Phosphoric Acid Fuel Cell (PAFC) 273
- The Molten Carbonate Fuel Cell (MCFC) 273
- Fuels for Fuel Cells 274
- Hydrogen-A Bad Choice for Fuel Cells 274
- Real-World Fuel Cell Efficiencies 276
- User Expectations 278
- Onboard Fuel Storage Requirements 279
- Realistic DOE Objectives 280
- Current Status 281
- Appendix 1 FAQ on Energy and Hydrogen 285
- Questions on Basic Facts 285
- Selected Terms and Conditions Courtsy H.S.D.Q.E. 325.
- Notes:
- Includes bibliographical references and index.
- Local Notes:
- Acquired for the Penn Libraries with assistance from the Louis A. Duhring Fund.
- ISBN:
- 9780471790532
- 0471790532
- OCLC:
- 140107958
- Online:
- Publisher description
- Contributor biographical information
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